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verifiedAIS-156 | UN38.3 | CE | IEC 62619 | 12-market export certification system
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TIANQIULi-ion Export
Passenger 150Ah · 51.2V (48V/60V) vs 76.8V (72V) · sizing basis, no price amounts51.2V 150Ah = 7.68 kWh76.8V 150Ah = 11.52 kWh55–68 Wh/km passenger95–125 Wh/km heavy cargo

E-rickshaw battery 150Ah:the number means two different things at two voltages

Here is the answer first. 150Ah is not energy; it is current capacity. Energy is kWh = Ah × nominal volts.
· 48V / 60V platform (16S LiFePO4, 51.2V nominal — the same pack under two sales labels): 150Ah = 7.68 kWh, which targets 120–140 km on passenger duty (55–68 Wh/km);
· 72V platform (24S LiFePO4, 76.8V nominal): 150Ah = 11.52 kWh, which would run 170–210 km on passenger duty — but its standard duty is heavy cargo (95–125 Wh/km), where it targets 90–110 km.
So before asking how far 150Ah goes, ask which voltage platform; before asking what 150Ah costs, ask whether it is 16S or 24S. This page settles both, lists the five things that set the price, and quotes no amounts at all.

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51.2V (16S) energy7.68 kWh
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48V / 60V shared basissame 16S pack
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76.8V (24S) energy11.52 kWh
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Cycle life (all platforms)3,500 cycles

verifiedEnergy is computed at factory nominal voltage. Range figures are converted from typical averages at full load, 35°C ambient and paved to lightly unpaved surfaces, not nameplate claims. The specification sheet shipped with your container governs.

Industrial high-discharge LiFePO4 battery packs in steel enclosures for 150Ah e-rickshaw duty
grid_onOne label, two energies

150Ah across two platforms: one number, two energies

Both rows say 150Ah; only the series count differs. Energy is computed at nominal voltage (51.2V / 76.8V) and pack weight at about 7 kg/kWh including steel enclosure, BMS and harness (±5%). Both the passenger and the heavy-cargo range are shown because the same pack on a different duty cycle answers a completely different question.

kWh = Ah × nominal volts
Platform / seriesNominal voltage150Ah nominal energyPack weight (typical)Passenger 55–68 Wh/kmHeavy cargo 95–125 Wh/kmTypical vehicle fit
48V / 60V platform (16S LFP)51.2V≈ 7.68 kWh≈ 54 kg120 – 140 km60 – 80 kmLight passenger duty, long shifts on flat routes; drop-in for 5×12V lead-acid bays
72V platform (24S LFP)76.8V≈ 11.52 kWh≈ 81 kg170 – 210 km90 – 110 kmHeavy cargo tricycles, routes with frequent gradients

The point buyers get misled on most often: a sales claim of "150Ah, big capacity" usually assumes a 12V or 48V basis. On a 72V (24S) vehicle that label is 11.52 kWh; on a 16S vehicle it is 7.68 kWh. A 1.5x spread in energy, and therefore in both range and price. The full capacity and range derivation is in the capacity and range engineering guide.

Specification notice:The figures above are engineering reference values. They may differ with production batch, configuration and actual duty cycle, and the percentages for life, efficiency, availability and coverage are engineering estimates and bench references. Contact us for the detailed specification sheet.

compareSame 150Ah, different usable energy

Both labelled 150Ah: lead-acid releases half, lithium nearly nine tenths

The second thing that gets missed: nameplate capacity is not usable capacity. To protect plate life, lead-acid is typically discharged only 50–60% before it needs recharging, while LiFePO4 is specified at 88–90% depth of discharge. At the same 150Ah label, the usable energy differs by about 1.7x.

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Factory lead-acid 150Ah

Nominal rating of a 4×12V or 6×12V series set
  • cancelUsable capacity50–60%Roughly 75–90Ah usable from a 150Ah label — the rest is dead zone held back against sulphation
  • cancelCycle life300 – 500 cyclesOften under 300 on stop-start passenger duty with deep discharge
  • cancelAssembled weight (72V basis)≈ 240 kgOn a passenger vehicle that weight comes straight out of paying seats
  • cancelCharging per shiftHeavy or long routes normally need a midday top-up
The problem is not that 150Ah is too small — it is that nearly half of it can never be used.
verified

LiFePO4 150Ah

Same nominal capacity · 16S / 24S
  • check_circleUsable capacity88–90% DoD recommendedAbout 132–135Ah usable, roughly 1.7x the same-label lead-acid set
  • check_circleCycle life3,500 cycles1C charge/discharge to ≥80% SOH, 5-year / 3,500-cycle warranty
  • check_circleAssembled weight (72V basis)≈ 81 kgAbout 160 kg lighter than lead-acid — two to three passengers of payload margin
  • check_circleCharging per shiftOne pack covers the daySized on real daily distance plus 20% margin, not on a midday top-up
At the same 150Ah label, the lithium pack gives about 1.7x the usable energy — which is why a conversion feels like a bigger battery.
calculateWhat sets the price (no amounts here)

Five things set the price — this page gives the basis, not a number

Two quotations for the same "150Ah" can differ several fold, and it is never because one factory is greedier: it is because one of these five inputs differs. Fill all five in and any factory quote becomes comparable. This page publishes no amounts; the formal quotation governs.

  1. 01bolt

    Voltage platform and series count: 16S / 24S

    Series count sets the energy (see the table above) and also the BMS sense channels, MOSFET count and charger specification. A 24S 150Ah pack carries 50% more cells than a 16S 150Ah pack, plus an extra sense and protection loop — they are never in the same price band. Confirm the series count before comparing anything.

    16S = 51.2V (48V / 60V shared) · 24S = 76.8V (72V)
  2. 02battery_5_bar

    Cell grade and consistency basis: Tier-1 A-grade, or graded stock

    This is the largest single driver of price difference and the hardest to see from outside. We use Tier-1 A-grade cells only and refuse graded or dismantled cells, the factory matching spec on the battery spec sheet is ΔV ≤ 3 mV with internal-resistance spread ≤ 0.5 mΩ, and the spread records ship with every pack for inbound re-check. A 150Ah pack built from graded cells often measures fine for three months, then the spread opens, the weakest cell bottoms out first and usable energy collapses.

    Factory matching spec: ΔV ≤ 3 mV / ΔIR ≤ 0.5 mΩ (see spec sheet)
  3. 03shield

    Structure and function options: enclosure, swapping, comms

    IP67 steel enclosure and a potted BMS bay are standard. Above that, whether the pack needs a quick-release swap structure, CAN 2.0B for a fleet platform, or anti-theft positioning all enters the price. These are not accessories — they decide whether the pack can join a swap network and be managed by a fleet platform.

    Standard IP67 steel case + potted BMS bay
  4. 04description

    Documents with the container and market access

    Transport always requires UN38.3, MSDS and a dangerous-goods packing certificate (Class 9). Market access depends on the destination — India AIS-156 Phase 2, Indonesia SNI, South Africa NRCS LOA, Nigeria SONCAP, Kenya PVoC / KEBS, Sri Lanka SLS 1656. Which documents, issued by whom, and whether samples must be tested, all move both schedule and cost.

    UN38.3 / MSDS / Class 9 packing certificate with every container
  5. 05local_shipping

    Trade terms, container loading and lead time

    The same pack lands at a different cost under EXW, FOB and CIF, and the difference is entirely ocean freight, insurance and destination charges. A 20GP holds about 180 packs and a 40HQ more than 320; sampling takes 3–5 days. Give us destination port, payload, daily distance and motor rating and we can model FOB / CIF and container allocation.

    20GP ≈ 180 packs · 40HQ 320+ · sampling 3–5 days
help150Ah FAQ

The six questions a 150Ah e-rickshaw battery always raises

How far will a 150Ah battery actually take me?expand_more
It depends on the voltage platform and the payload. Passenger rickshaw duty runs about 55–68 Wh/km: 51.2V (16S) 150Ah stores 7.68 kWh and targets 120–140 km, while 76.8V (24S) 150Ah stores 11.52 kWh and would cover 170–210 km on the same duty. Heavy cargo runs about 95–125 Wh/km, where 72V 150Ah targets 90–110 km. Size on real daily distance plus about 20% margin — and confirm the series count first.
Why do lead-acid and lithium differ so much in usable energy at the same 150Ah?expand_more
Nameplate capacity is not usable capacity. To protect the plates against sulphation, lead-acid is discharged only 50–60%, so a 150Ah label delivers roughly 75–90Ah. LiFePO4 is specified at 88–90% DoD, delivering about 132–135Ah. At the same 150Ah label, the lithium pack gives about 1.7x the usable energy — the real reason owners say the pack feels like a bigger battery after conversion.
How much more does 150Ah cost than 100Ah, and is it worth it?expand_more
The difference comes from cell count, BMS channels and pack structure, and this page publishes no amounts. Whether it pays comes down to one calculation: daily distance × consumption (55–68 Wh/km on passenger duty) × 1.2 margin ÷ nominal voltage = required Ah. If that lands at 90–110Ah, a 150Ah pack simply means carrying 20–30 kg of battery you never use. If it lands near 130Ah, a 100Ah pack will leave you short every afternoon.
How can I tell whether a 150Ah pack is overrated?expand_more
Three field checks: ① weigh the pack — LiFePO4 is roughly 7 kg/kWh, so a 72V (76.8V) 150Ah pack should sit near 81 kg, and a clearly lighter one has fewer cells inside; ② measure cell AC internal resistance and its spread with a milliohm meter — a factory A-grade set ships at ≤ 0.5 mΩ spread and ≤ 3 mV static delta, while graded stock runs high and scattered; ③ run a fixed route from full charge and log the distance against the kWh put back in — a recharge energy clearly below nominal energy proves the rating. The full audit procedure is in the factory audit and QC whitepaper.
If the capacity is short, can I parallel two 150Ah packs?expand_more
It can be done, but only when both packs have the same series count, nominal voltage, cell model and batch and are of similar age; charge both fully and let them rest to within 20mV before paralleling. Mixing batches creates circulating current, and the weaker pack is permanently charged by the stronger one, so its life collapses quickly. The safer route is not paralleling but stepping up the platform: moving from 51.2V 150Ah to 72V 150Ah adds 50% energy outright.
What does a 150Ah battery cost?expand_more
This page makes no price guess. A quotation is built from five inputs — voltage platform and series count, cell grade, function options, documents with the container and trade terms (all above). Send destination port, payload or occupancy, daily distance and motor rating and we will return selection advice and firm FOB / CIF pricing within 24 hours on working days.
request_quote150Ah quotation

Fix the series count, then get a firm quotation for your duty cycle

Tell us whether you need 16S or 24S (48V and 60V are both 16S), plus destination port, payload, daily distance and motor rating. We will return selection advice, FOB / CIF pricing, container allocation and lead time, with the shipping document list attached.

  • Selection advice and pricing within 24 hours on working days
  • Sample packs available to prove the real daily distance before you commit to a container
  • Fleet size, routes and market-access documents are strictly confidential; NDA available first
callDirect / WhatsApp: +86 13922702227
location_onEBattery Office, Room 310I, Huilange BLDG, No. 273, Huangpu Blvd W, Tianhe District, Guangzhou 510620, Guangdong, China
scheduleReply within 24 hours on working daysscienceSized to daily distance and payload, not to the largest capacityverified_userUN38.3 / MSDS / Class 9 packing certificate with every container

Specification notice:The figures above are engineering reference values. They may differ with production batch, configuration and actual duty cycle, and the percentages for life, efficiency, availability and coverage are engineering estimates and bench references. Contact us for the detailed specification sheet.